Humanoid locomotion
Robust walking, landing stabilization, and impedance or admittance control for humanoids on uneven terrain.
Research-first homepage
I build and study robotic systems that move reliably, interact physically, and make high-dimensional control problems tractable in the real world.
Research focus
The site is organized around locomotion, balance, and physically interactive control rather than around theme-specific blog categories.
Robust walking, landing stabilization, and impedance or admittance control for humanoids on uneven terrain.
Task-space and momentum-based methods for balancing articulated robots with physical constraints and uncertain contact.
Dual-arm teaching, robotic hands, and physically interactive systems that transfer contact intent into reliable motion.
Selected publications
These papers capture the main control and locomotion themes that define the public profile of the site.
Joonhee Jo, Yonghwan Oh
Joonhee Jo, Gyunghoon Park, Yonghwan Oh
Joonhee Jo, Yonghwan Oh
Joonhee Jo, Gyunghoon Park, Yonghwan Oh
Selected projects
Each project here corresponds to a real robotics problem or research track.
2019–2022
A research track on landing stabilization, impedance control, and centroidal momentum formulations for humanoid walking under uncertain terrain contact.
2020
Contact-force-based balance and tracking control for a ballbot, using projected task-space dynamics with unilateral and friction constraints.
2011–2014
Early research on grasping force control, compliance, internal force design, and dexterous multi-contact manipulation with robotic hands.
2012–2016
Whole-body balancing and gravity-aware task-space control for upper-body dual-arm robots used in direct teaching and heavy-object interaction.
Recent writing
Technical notes, Python articles, and system setup notes are preserved in a cleaner archive with clear language labels.
Ubuntu 20.04 LTS, C++
data visualization - horisontal line, range shadowing
data visualization - creating custom graph funtion
Short bio
Joonhee Jo works on humanoid locomotion, whole-body balance control, and physically interactive robotic systems across legged, wheeled, and manipulation platforms.